Iodine status in western Kenya: a community-based cross-sectional survey of urinary and drinking water iodine concentrations

被引:14
|
作者
Watts, Michael J. [1 ]
Middleton, Daniel R. S. [1 ,2 ]
Marriott, Andrew [1 ]
Humphrey, Olivier S. [1 ]
Hamilton, Elliott [1 ]
McCormack, Valerie [2 ]
Menya, Diana [3 ]
Farebrother, Jessica [5 ]
Osano, Odipo [4 ]
机构
[1] British Geol Survey, Inorgan Geochem, Ctr Environm Geochem, Nottingham, England
[2] Int Agcy Res Canc, Sect Environm & Radiat, Lyon, France
[3] Moi Univ, Sch Publ Hlth, Eldoret, Kenya
[4] Univ Eldoret, Sch Environm Sci, Eldoret, Kenya
[5] Swiss Fed Inst Technol, Human Nutr Lab, Zurich, Switzerland
关键词
Urinary iodine concentrations; Iodine excess; Hydration status corrections; EXCESSIVE IODINE; EXCRETION; SUBSTANCES; DEFICIENCY; CHILDREN; GRAVITY; DENMARK; SAMPLES; GOITER;
D O I
10.1007/s10653-019-00352-0
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Spot urinary iodine concentrations (UIC) are presented for 248 individuals from western Kenya with paired drinking water collected between 2016 and 2018. The median UIC was 271 mu g L-1, ranging from 9 to 3146 mu g L-1, unadjusted for hydration status/dilution. From these data, 12% were potentially iodine deficient (< 100 mu g L-1), whilst 44% were considered to have an excess iodine intake (> 300 mu g L-1). The application of hydration status/urinary dilution correction methods was evaluated for UICs, using creatinine, osmolality and specific gravity. The use of specific gravity correction for spot urine samples to account for hydration status/urinary dilution presents a practical approach for studies with limited budgets, rather than relying on unadjusted UICs, 24 h sampling, use of significantly large sample size in a cross-sectional study and other reported measures to smooth out the urinary dilution effect. Urinary corrections did influence boundary assessment for deficiency-sufficiency-excess for this group of participants, ranging from 31 to 44% having excess iodine intake, albeit for a study of this size. However, comparison of the correction methods did highlight that 22% of the variation in UICs was due to urinary dilution, highlighting the need for such correction, although creatinine performed poorly, yet specific gravity as a low-cost method was comparable to osmolality corrections as the often stated 'gold standard' metric for urinary concentration. Paired drinking water samples contained a median iodine concentration of 3.2 mu g L-1 (0.2-304.1 mu g L-1). A weak correlation was observed between UIC and water-I concentrations (R = 0.11).
引用
收藏
页码:1141 / 1151
页数:11
相关论文
共 50 条
  • [1] Iodine status in western Kenya: a community-based cross-sectional survey of urinary and drinking water iodine concentrations
    Michael J. Watts
    Daniel R. S. Middleton
    Andrew Marriott
    Olivier S. Humphrey
    Elliott Hamilton
    Valerie McCormack
    Diana Menya
    Jessica Farebrother
    Odipo Osano
    Environmental Geochemistry and Health, 2020, 42 : 1141 - 1151
  • [2] A cross-sectional survey of urinary iodine status in Latvia
    Konrade, Ilze
    Neimane, Lolita
    Makrecka, Marina
    Strele, Ieva
    Liepinsh, Edgars
    Lejnieks, Aivars
    Vevere, Parsla
    Gruntmanis, Ugis
    Pirags, Valdis
    Dambrova, Maija
    MEDICINA-LITHUANIA, 2014, 50 (02): : 124 - 129
  • [3] Iodine status and characteristics of Korean adolescents and their parents based on urinary iodine concentration: a nationwide cross-sectional study
    Choi, Yun Chang
    Cheong, Ji In
    Chueh, Hee Won
    Yoo, Jae-Ho
    ANNALS OF PEDIATRIC ENDOCRINOLOGY & METABOLISM, 2019, 24 (02) : 108 - 115
  • [4] Iodine status of UK schoolgirls: a cross-sectional survey
    Vanderpump, Mark P. J.
    Lazarus, John H.
    Smyth, Peter P.
    Laurberg, Peter
    Holder, Roger L.
    Boelaert, Kristien
    Franklyn, Jayne A.
    LANCET, 2011, 377 (9782) : 2007 - 2012
  • [5] Iodine Status of Brazilian School-Age Children: A National Cross-Sectional Survey
    Cesar, Juraci A.
    Santos, Ina S.
    Black, Robert E.
    Chrestani, Maria A. D.
    Duarte, Fabio A.
    Nilson, Eduardo A. F.
    NUTRIENTS, 2020, 12 (04)
  • [6] Performance evaluation of iodine deficiency disorder control program in Chikmagalur District: A cross-sectional community-based survey
    Siddalingappa, Hugara
    Goud, B. Nagaraja
    Hanumantharaya, Raghunath
    Rudresh, Harish Bekkalale
    Arulprakasam, Divya
    Marumadu, Girish
    Hirehanamantagoudar, Bagyalaxmi
    INDIAN JOURNAL OF COMMUNITY MEDICINE, 2022, 47 (04) : 591 - 595
  • [7] What Iodine Intervention Measures Should Be Taken in Different Water Iodine Areas? Evidence from a Cross-sectional Chinese Survey
    Du, Yang
    Liu, Peng
    Meng, Fangang
    Fan, Lijun
    Jia, Qingzhen
    Li, Weidong
    Jiang, Wen
    Ma, Jing
    Zheng, Heming
    Wang, Peihua
    Sun, Dianjun
    Shen, Hongmei
    BIOLOGICAL TRACE ELEMENT RESEARCH, 2022, 200 (11) : 4654 - 4663
  • [8] Exploring Salivary Iodine Concentration as a Biomarker for Iodine Status and Thyroid Nodules in Females From Different Water Iodine Areas: a Cross-sectional Study
    Zhang, Ying
    Li, Xiuwei
    Wang, Jianqiang
    Ma, Wei
    Wang, Haiyan
    Wang, Jinpeng
    Xu, Jing
    AMERICAN JOURNAL OF CLINICAL NUTRITION, 2024, 120 (01) : 162 - 169
  • [9] Iodine status of Turkish pregnant women and their offspring: A national cross-sectional survey
    Vural, Mehmet
    Koc, Esin
    Evliyaoglu, Olcay
    Acar, Hazal Cansu
    Aydin, Abdurrahman Fatih
    Kucukgergin, Canan
    Apaydin, Gozde
    Erginoz, Ethem
    Babazade, Xanim
    Sharifova, Sabina
    Perk, Yildiz
    JOURNAL OF TRACE ELEMENTS IN MEDICINE AND BIOLOGY, 2021, 63
  • [10] Current Iodine Status in Japan: A Cross-sectional Nationwide Survey of Schoolchildren, 2014-2019
    Fuse, Yozen
    Ito, Yoshiya
    Shishiba, Yoshimasa
    Irie, Minoru
    JOURNAL OF CLINICAL ENDOCRINOLOGY & METABOLISM, 2022, 107 (05) : E2065 - E2079